Quantum Symmetries
Explore quantum symmetries with expert Andrzej Sitarz, delving into advanced mathematical concepts and their applications in modern physics.
Chern-Simons Field Theory Invariants - Knots, Links and Three-Manifolds - Part 1
Explore Chern-Simons field theory invariants and their applications to knots, links, and three-manifolds in this advanced mathematics lecture.
Chern-Simons Field Theory Invariants - Knots, Links and Three-Manifolds - Part 2
Explore advanced concepts in Chern-Simons field theory, focusing on invariants of knots, links, and three-manifolds in this continuation lecture.
Chern-Simons Field Theory Invariants - Knots, Links and Three-Manifolds - Part 3
Explore Chern-Simons field theory invariants, focusing on knots, links, and three-manifolds in this advanced mathematical lecture.
Topological Evolution of Time in Unimodular Gravity
Explore the concept of topological evolution of time within the framework of Unimodular Gravity, as presented by Sayyed Rassouli from the University of Nottingham.
Chern-Simons Field Theory Invariants - Knots, Links and Three-Manifolds - Part 4
Explore Chern-Simons field theory invariants, focusing on knots, links, and three-manifolds in this advanced mathematics lecture by Ramadevi Pichai.
Chern-Simons Field Theory Invariants - Knots, Links and Three-Manifolds - Part 5
Explore Chern-Simons field theory invariants, focusing on knots, links, and three-manifolds in this advanced mathematics lecture by Ramadevi Pichai.
Exploring Resemblance Between Topological Charges, Vortices, Knots and Particle Physics - Part 1
Explore connections between topological structures and particle physics, delving into charges, vortices, and knots to uncover fundamental similarities and insights.
3D Quantum Trace Map: Construction and Applications in Ideally Triangulated 3-Manifolds
Explore the construction of the 3d quantum trace map, linking Kauffman bracket skein modules to quantum gluing modules in ideally triangulated 3-manifolds.
Duality Defects in D_n-Type Niemeier Lattice CFTs
Explore duality defects in D_n-type Niemeier Lattice CFTs, uncovering intricate relationships and mathematical insights in this advanced theoretical physics lecture.
C-R-T Fractionalization
Explore topological methods in theoretical physics, focusing on C-R-T fractionalization and its applications in anomaly studies.
Probably Approximately Correct Mathematical Physics
Explore applications of machine learning in string theory and mathematical physics, focusing on black holes and higher-spin holography.
Topological Defect Lines and TQFTs
Explore topological defect lines and TQFTs with Associate Professor Babak Haghighat, delving into string theory, quantum field theory, and topological field theory concepts.
Physmatics - The Tip of the Iceberg
Explore quantum field theory, string theory, and black hole physics with a theoretical high energy physicist. Uncover spacetime's building blocks and matter's essence.
Quantum Frontier for Atomic Clocks and Fundamental Physics
Explore quantum entanglement's impact on precision measurement, atomic clocks, and fundamental physics. Discover advances in atomic interactions, gravitational time dilation, and spin entanglement.
Constraints on Quantum Gravity
Explore constraints on quantum gravity theories, focusing on AdS/CFT correspondence and recent progress in holographic approaches. Examine symmetry constraints and the Distance Conjecture proof.
Fracton Quantum Order
Explore fracton phases in quantum systems, their restricted mobility excitations, and ground-space degeneracy. Review key developments and unifying perspectives on these emergent phases.
Mathematical Theories for Metamaterials: From Condensed Matter Theory to Subwavelength Physics
Explore mathematical theories for metamaterials, bridging quantum and classical physics to revolutionize nanotechnology and subwavelength wave manipulation.
How Bright is the Proton? A Precise Determination of the Photon Parton Distribution Function
Explore the precise determination of photon distribution in protons using electron-proton scattering data, enhancing our understanding of particle physics at the Large Hadron Collider.
The Amplituhedron - Connecting Scattering Amplitudes and Quantum Field Theory
Explore the connection between scattering amplitudes and the Amplituhedron, a novel mathematical concept generalizing convex polytopes into Grassmannians.
SchNet - A Deep Learning Architecture for Molecules and Materials
Explore SchNet, a deep learning architecture for modeling atomistic systems, and its applications in predicting molecular and material properties across chemical space.